Textbook on
"Intelligent Systems and Technologies in Rehabilitation Engineering"
The material on this page is aimed to briefly present and complement the textbook:
Intelligent Systems and Technologies in Rehabilitation Engineering,
Horia-Nicolai Teodorescu, Lakhmi C. Jain (Eds.), CRC Press, 2001
The textbook has been adopted as a textbook in several universities around the world, and teachers using the text in the class have asked for additional material.
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Notice: If some of the linked files would not show on your screen when you click on the link, please use the right-hand button of your mouse to click on the link, then click on: "Save link as..." command to download the file on your computer.
Book included in the Engineering Handbooks on Line series. See at CRC Press, EngNetBase (Engineering Handbooks on Line) the profiles of the book and editors by clicking here.
Also, the volume has been
Main sections of the book (Contents): 1. Introduction; 2. Sensorial Prostheses; 3. Locomotor Prostheses; 4. Pacemakers and Life-sustaining Devices; 5. Robotic Systems and Advanced Mechanics
Remarks on using this volume as a textbook
This volume is suitable for a textbook on prostheses, as taught in Bio-Medical Engineering undergraduate and graduate classes.
The textbook may be adapted to the need of the class and to the available time for lecturing. For a typical one semester class, the teacher may wish to skip some chapters, taking into account the main interest in his or her department. Taking into account the Contents of the volume, and on the profile of the course given, the teacher may chose one of the strategies:
Course emphasizing locomotor prostheses
INTRODUCTION: Ch. 1 New Technologies in Rehabilitation. General Trends
LOCOMOTOR PROSTHESES: Ch. 4. Sensory Feedback for Lower Limb Prostheses; Ch. 5. Multifunction Control of Prostheses using the Myoelectric Signal; Ch. 6. Selective Activation of the Nervous System for Motor System Neural Prostheses; Ch. 7. Upper Limb Myoelectric Prostheses: Sensory Control System and Automatic Tuning of Parameters
ROBOTIC SYSTEMS AND ADVANCED MECHANICS: Ch. 11. Service Robots for Rehabilitation and Assistance; Ch. 12. Computerized Obstacle Avoidance Systems for the Blind and Visually Impaired; Ch. 13. Advanced Design Concepts for a Knee-Ankle-Foot Orthosis
Course emphasizing sensorial prostheses and sensors
INTRODUCTION Ch. 1. New Technologies in Rehabilitation. General Trends
SENSORIAL PROSTHESES: Ch. 2. A Retinal Prosthesis to Benefit the Visually Impaired. Ch. 3. Intelligent Techniques in Hearing Rehabilitation
LOCOMOTOR PROSTHESES: Ch. 4. Sensory Feedback for Lower Limb Prostheses; Ch. 5. Multifunction Control of Prostheses using the Myoelectric Signal; Ch. 6. Selective Activation of the Nervous System for Motor System Neural Prostheses Ch. 7. Upper Limb Myoelectric Prostheses: Sensory Control System and Automatic Tuning of Parameters
PACEMAKERS AND LIFE-SUSTAINING DEVICES: Ch. 8. Computer-Aided Support Technology for Artificial Heart Control Diagnosis and Hemodynamic Measurements; Ch. 9. Diaphragm Pacing for Chronic Respiratory Insufficiency; Ch. 10. Intelligent Systems in Heart Pacemakers
ROBOTIC SYSTEMS AND ADVANCED MECHANICS: Ch. 11. Service Robots for Rehabilitation and Assistance; Ch. 12. Computerized Obstacle Avoidance Systems for the Blind and Visually Impaired; Ch. 13. Advanced Design Concepts for a Knee-Ankle-Foot Orthosis
Notice. We found useful that, during the first class, a presentation of the main terminology and abbreviations is made. This presentation may be a little bit tiring, but it may save much time in the subsequent classes, and may eliminate a "language barrier" in the understanding by the students of the subsequent lectures. The Index of acronyms and abbreviations, and the Index of terms, complementing the volume, may help in preparing the presentation.
Additional material
A package of additional material is available free of charge, and other materials can be purchased (see also the related volumes below and links to Amazon.com). Please ask here for the . The package includes:
If you are an eligible teacher using the textbook in your class, you will receive a package tailored to your needs. Please write to the editors and describe your needs, including the description of the background of your students. Click here to see a sample of transparency.
Additional readings
The volumes listed below may be found useful to complement the textbook, especially for Ph.D. level classes and seminars:
We specifically recommend as further readings the chapters: Fuzzy Control Methodology: Basics and State of the Art, by Toshio Fukuda and Nfaoyuki; Learning Eye-Arm Coordination Using Neural and Fuzzy Neural Techniques, by Adrian Stoica; Learning Stiffness Characteristics of the Human Hand Using a Neuro-Fuzzy System, by Alexander Iliesh and Abraham Kandel; Fuzzy Reduction Control of Acceleration and Vibration of a Stretcher-Cart on an Ambulance, by Mikio Maeda and Shuta Murakami
Link to this volume at Amazon.com. Link to this volume at Barnes and Noble.com
This volume presents several applications of fuzzy and neuro-fuzzy systems in medicine. We specifically recommend as further readings the chapters: Ch. 1 Fuzzy Logic and Neuro-Fuzzy Systems in Medicine and Biomedical Engineering. A Historical Perspective; Ch. 11. Fuzzy Control and Decision Making in Drug Delivery; Ch. 12 Neuro-Fuzzy Hardware in Medical Applications 12. A System Requirements for Fuzzy and Neuro-Fuzzy Hardware in Medical Equipment; 12. B Neural Networks and Fuzzy-Based Integrated Circuit and System Solutions Applied to the Biomedical Field
Link to this book at Amazon.com. Link to this volume at Barnes and Noble.com.
This volume has been featured as one of "the 100 most popular books in Medicine" at YBOOKS. See here the nomination. (Notice: If the some of the linked files would not show on your screen when you click on the link, please use the right-hand button of your mouse to click on the link, then click on: "Save link as..." command to download the file on your computer.)
Also, the volume is featured in the list of "key references" at Omega.com. See here the list.
Link to this book at Amazon.com. Link to this volume at Barnes and Noble.com
This volume presents several hardware implementations for fuzzy systems, neural networks, and genetic algorithms, that may exemplify the use of these technologies in prostheses too. We specifically recommend as further readings the chapters: Ch. 3. Hardware implementation of intelligent systems; Ch. 4. High performance fuzzy processors; Ch. 5. A digital fuzzy processor for fuzzy-rule-based systems; Ch. 7. Analog VLSI hardware implementation of a supervised learning algorithm; Ch. 2. High-performance hardware design and implementation of genetic algorithms.
Sample Projects and Homework
1. Use the sensor concept presented in references [1] (see above) to build a device that may be used by a disabled person to monitor the tremor. (Notice: the sensor is covered by several international and national patents, and can not be used in actual application without the written permission of the patent rights owners.)
Download here Figure 2 in the patent. Download here Figures 3 and 4 in the patent. Download here Figures 5 and 6 in the patent.
(a, b)
(c)
(a) Positions of the sensors on the chair, for tremor, movement and respiration measurements
(b) Configuration and shape of an embodiment of the sensor
(c) Block diagram of the sensor circuit
(d)
(e)
(d) Schematics of the sensor and equivalent circuit of the sensor. (e) A chair with the sensor included in the back support. The box seen on the chair includes the driving and measuring circuitry and is not visible to the user of the chair, in general.
(Notice: the sensor is covered by several international and national patents, and can not be used in actual applications without the written permission of the patent rights owners.)
2. Use the sensor concept presented in references [1] (see above) to build a device that may be used by a disabled person to control, by using the position of his / her head, the direction and velocity of a wheelchair. The control should be without contact and the rules for the control are:
i) head moved to left, wheelchair directed to left, while left hand is pushing a button.
ii) head moved to right, wheelchair directed to right, while left hand is pushing a button.
iii) head moved to backward, wheelchair stopped, while left hand is pushing a button.
iv) head moved to forward, wheelchair accelerates, while left hand is pushing a button.
Fuzzy logic is recommended for implementing the rules. Means to remove noisy movements (like tremor) should be included in the system.
(Notice: the sensor is covered by several international and national patents, and can not be used in actual applications without the written permission of the patent rights owners.)
3. Read the paper at this link. Read also a brief outline of the project here -- see section 3.3. in the article. (If the linked file would not show on your screen when you click on the link, please use the right-hand button of your mouse to click on the link, then click on: "Save link as..." command to download the file on your computer.) Then, imagine a system that predicts the tremor movement of the arm and applies an electric stimulus to the arm muscles that stabilizes the hand movement and position. Example: specifically design the system for the use of Parkinsonian subjects.
Recent essential references on sensorial mechanisms
The references below may prove excellent starting points in homework and projects related to sensorial prostheses.
How the olfactory system makes sense of scents, by Stuart Firestein Nature, Vol. 413, September 2001 www.nature.com
Molecular basis of mechanosensory transduction, by Peter G. Gillespie & Richard G. Walker Nature, Vol. 413, 13 September 2001 www.nature.com
Visual transduction in Drosophila, by Roger C. Hardie and Padinja Raghu Nature 413, 186-193 (2001)
How the olfactory system makes sense of scents, by Stuart Firestein Nature 413, 211-218 (2001)
Molecular basis of mechanosensory transduction, by Peter G. Gillespie and Richard G. Walker Nature 413, 194-202 (2001)
Molecular mechanisms of nociception , by David Julius and Allan I. Basbaum Nature 413, 203-210 (2001)
Stochastic sensory inspired by biology, by Hagan Bayley and Paul S. Cremer Nature 413, 226-230 (2001)
Receptors and transduction in taste, by Bernd Lindemann Nature, Vol. 413, 13 September 2001
Odor-introduced membrane currents in vertebrate-olfactory receptor neurons , by S. Firestein & F. Werblin. Science 244: 79-82 (1989)
Useful links in the field of Rehabilitation Engineering:
http://www.census.gov/population/pop-profile/p23-189.pdf
(Population Profile of the United State 1995. Current Population Reports)
www.fernuni-hagen.de/FTB/aaate/position.htm
(Empowering older and disabled people in the EU)
http://www.resna.org/wwwrsour_web.html
( REHABILITATION ENGINEERING AND ASSISTIVE TECHNOLOGY SOCIETY OF NORTH AMERICA)
http://www.iinet.net.au/~sharono/arata/index.html
(Australian Rehabilitation & Assistive Technology Association)
http://www.vicnet.net.au/disability/
(Australian Disability Information)
www.simfer.it/ (The Italian
Society of Physical Medicine and Rehabilitation - Societa Italiana di Medicina
Fisica e Reabilitazione)
http://www.ama-assn.org/insight/gen_hlth/glossary/glos_nq.htm
(Medical Glossary on AMA - American Medical Association)
http://www.graylab.ac.uk/omd/
(On-Line Medical Dictionary)
http://www.medicinenet.com
http://www.bath.ac.uk/Centres/BIME/icorr97.htm
(Int. Conf. Rehab. Robotics ICORR'97)
http://www.nlm.nih.gov/
(US National Library of Medicine)
http://www.ncbi.nlm.nih.gov/pubmed/
(PUBMED at National Library of Medicine, USA)
http://www.bath.ac.uk/Centres/BIME/proceed.htm
(Int. Conf. Rehab. Robotics ICORR'97)
http://ep.espacenet.com/
([Espacenet] of the European Patent Office)
Further issues and possible future issues in rehabilitation technology
One of the issues not yet discussed in rehabilitation technology framework, but discussed in the domain of cognition, is the cognitive and emotional rehabilitation. The issue is still in the emerging stage, and its advent, while pioneered by a few scientists, including our research during the last 20 years, has not developed into a clear-cut domain.
To get a glimpse on the current state in the domain, a good reading might be:
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WHAT SHOULD BE COMPUTED TO UNDERSTAND AND MODEL BRAIN FUNCTION? From Robotics, Soft Computing, Biology and Neuroscience to CognitivePhilosophy. Fuzzy Logic Systems Institute (FLSI) Soft Computing Series - Vol. 3. Edited by Tadashi Kitamura (Kyushu Institute of Technology, Japan). 324pp Pub. date: Feb 2001 ISBN 981-02-4518-1. World Scientific. (See here)
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to the Group of laboratories for Medical Electronics and Intelligent Systems
Copyright Horia-Nicolai Teodorescu, 1999-2001
For any questions, please write to Prof. Horia-Nicolai Teodorescu
Last modified on October 15, 2001